Rui Marinheiro’s research while affiliated with Instituto Superior Técnico and other places

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Publications (1)


Examples of (a) deterministic prediction, (b) ensemble prediction, and (c) probabilistic predictions. Bands indicate the percentage of observations expected to fall within their bounds.
Study area overview: (a) a map of Portugal highlighting the location of the study area (in green); and (b) the catchment of the Covas de Barroso hydropower plant (HPP), including its tributaries (depicted in blue), their respective catchments (outlined in black), and other HPP’s components.
Schematic representation of the hydropower scheme of Covas do Barroso. Adapted from [24].
Adopted methodology for model development. As referred, the recursive nature of the hyperparameter optimization process was not explored in full detail. Consequently, this part of the methodology is depicted in a lighter color to indicate its reduced emphasis here.
Rationale behind the low–flow filter: (a) process of “pond–and–release” and (b) representation of this operation with “release” at tr for a short period of time. Here, Qin is the inflow in the HPP, Qnom is the nominal flow of turbines, and tr the instant of “release”. The red line represents the relative variation in hydropower output over time in a “pond–and–release” operation.

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Application of Temporal Fusion Transformers to Run-Of-The-River Hydropower Scheduling
  • Article
  • Full-text available

April 2025

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13 Reads

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José Pedro Matos

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Rui Marinheiro

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[...]

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Pedro Barros

This study explores the application of Temporal Fusion Transformers (TFTs) to improve the predictability of hourly potential hydropower production for a small run–of–the–river hydropower plant in Portugal. Accurate hourly power forecasts are essential for optimizing participation in the spot electricity market, where deviations incur penalties. This research introduces the novel application of the TFT, a deep–learning model tailored for time series forecasting and uncovering complex patterns, to predict hydropower production based on meteorological data, historical production records, and plant capacity. Key challenges such as filtering observed hydropower outputs (to remove strong, and unpredictable human influence) and adapting the historical series to installed capacity increases are discussed. An analysis of meteorological information from several sources, including ground information, reanalysis, and forecasting models, was also undertaken. Regarding the latter, precipitation forecasts from the European Centre for Medium–Range Weather Forecasts (ECMWF) proved to be more accurate than those of the Global Forecast System (GFS). When combined with ECMWF data, the TFT model achieved significantly higher accuracy in potential hydropower production predictions. This work provides a framework for integrating advanced machine learning models into operational hydropower scheduling, aiming to reduce classical modeling efforts while maximizing energy production efficiency, reliability, and market performance.

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